Step 0: Prepare covariates and input files

IDs <- fread("~/genotype_qc/TERRE_QC/all_imputed_r2_30_rsid_hard_call.fam")[, .(FID = V1, IID = V2)]
prsice_cov <- fread("prsice_cov_and_status_mvalues.txt")
prsice_cov <- prsice_cov[match(IDs$IID,prsice_cov$IID)]
all(IDs$IID ==prsice_cov$IID)
[1] NA
covariate <- cbind(IDs, prsice_cov[,-c(16,17,18)])

PD <- cbind(IDs,prsice_cov[,16])

head(covariate)
head(PD)
fwrite(na.omit(PD), "TERRE.pheno", sep = "\t")
fwrite(na.omit(covariate), "TERRE.covariate", sep = "\t")
covariate

Step 1: Run PRSice-2 on Nalls et al 2019 Sumstats

Rscript /home1/NEURO/casazza/PRSice.R \
    --prsice /home1/NEURO/casazza/PRSice_linux\
    --base /home1/NEURO/casazza/nalls_PD.QC.gz\
    --base-info INFO:0.8 \
    --base-maf MAF:0.01 \
    --cov TERRE.covariate \
    --binary-target T\
    --beta  \
    --ld /home1/NEURO/casazza/1000G_plink/EUR_phase3  \
    --out TERRE_PRSice \
    -q 5\
    --all-score\
    --pheno TERRE.pheno \
    --snp SNP \
    --stat b \
    --pvalue p\
    --target /home1/NEURO/casazza/genotype_qc/TERRE_QC/all_imputed_r2_30_rsid_hard_call \
    --thread 32

Step 2: Evaluate output

include_graphics("prsice_images/TERRE_PRSice_BARPLOT_2022-06-30.png")

include_graphics("prsice_images/TERRE_PRSice_HIGH-RES_PLOT_2022-06-30.png")

include_graphics("prsice_images/TERRE_PRSice_QUANTILES_PLOT_2022-06-30.png")


include_graphics("prsice_images/TERRE_PRSice_nalls_male_BARPLOT_2022-10-04.png")

include_graphics("prsice_images/TERRE_PRSice_nalls_male_HIGH-RES_PLOT_2022-10-04.png")

include_graphics("prsice_images/TERRE_PRSice_nalls_male_QUANTILES_PLOT_2022-10-04.png")


include_graphics("prsice_images/TERRE_PRSice_nalls_female_BARPLOT_2022-10-04.png")

include_graphics("prsice_images/TERRE_PRSice_nalls_female_HIGH-RES_PLOT_2022-10-04.png")

include_graphics("prsice_images/TERRE_PRSice_nalls_female_QUANTILES_PLOT_2022-10-04.png")

Plotting PRSice Data on my own

library(ggnewscale)
prsice_male_meta <- fread("prsice_nalls_male_data/TERRE_PRSice_nalls_male.prsice")
ggplot(prsice_male_meta[Threshold <= 0.5], aes(Threshold, Num_SNP, color = -log10(P))) +
  geom_point() +
  scale_y_continuous(breaks = c(seq(0, 1e5, 2.5e4), seq(2e5, 6e5, 1e5))) +
  theme_minimal()


prsice_female_meta <- fread("prsice_nalls_female_data/TERRE_PRSice_nalls_female.prsice")
ggplot(prsice_female_meta[Threshold <= 0.5], aes(Threshold, Num_SNP, color = -log10(P))) +
  geom_point() +
  scale_y_continuous(breaks = c(seq(0, 1e5, 2.5e4), seq(2e5, 6e5, 1e5))) +
  theme_minimal()


prsice_meta <- fread("prsice_data/TERRE_PRSice.prsice")
ggplot(mapping = aes(Threshold, R2, color = -log10(P))) +
  geom_point(data = prsice_female_meta, size = 1) +
  scale_color_gradient(low = "lightpink4", high = "lightpink") +
  labs(color = bquote("Female log"["10"] ~ "(P)")) +
  new_scale_color() +
  geom_point(data = prsice_male_meta, size = 1, aes(color = -log10(P))) +
  scale_color_gradient(low = "lightblue4", high = "lightblue") +
  labs(y = bquote("R"^2), x = "GWAS P-Value Threshold", color = bquote("Male -log"["10"] ~ "(P)")) +
  theme_minimal() +
  theme(legend.position = "top")

ggplot(mapping = aes(Threshold, R2, color = -log10(P))) +
  geom_point(data = prsice_female_meta, size = 1) +
  scale_color_gradient(low = "lightpink4", high = "lightpink",guide = guide_colorbar(order=3)) +
  labs(color = bquote("Female -log"["10"] ~ "(P)")) +
  new_scale_color() +
  geom_point(data = prsice_male_meta, size = 1, aes(color = -log10(P))) +
  scale_color_gradient(low = "lightblue4", high = "lightblue",guide = guide_colorbar(order=2)) +
  labs(color = bquote("Male -log"["10"] ~ "(P)")) +
  new_scale_color() +
  geom_point(data = prsice_meta, size = 1, aes(color = -log10(P))) +
  scale_color_gradient(low = "gray40", high = "gray80",guide = guide_colorbar(order=1)) +
  labs(y = bquote("R"^2), x = "GWAS P-Value Threshold", color = bquote("Cross-sex -log"["10"] ~ "(P)")) +
  theme_minimal() +
  theme(legend.position = "top",legend.title = element_text(size=7))

Step 3 run linear model at different thresholds for SNP inclusion

This is updated to recently processed DNAm Data 20 outliers in DNAm removed:

load("/home1/NEURO/SHARE_DECIPHER/processed_DNAm_data/2022/TERRE_processed_2022/1-TERRE_RG_filtered.RData") #PD_RG_filtered
# Assign genotyping ID to data
original_covars <- fread("/home1/NEURO/SHARE_DECIPHER/terre_meta_master.csv")[, .(patient, IID = gsub("_PAE.*", "", IID))]
betas_combat <- minfi::getBeta(PD_RG_filtered)
colnames(betas_combat) <- original_covars$IID[match(colnames(betas_combat), original_covars$patient)]
betas_combat <- betas_combat[, colnames(betas_combat) %in% covariate$IID]

Let’s check how the data looks for the first 5 subjects:

ggplot(betas_combat[, 1:5] %>% as.data.table(keep.rownames = T) %>% melt(id.vars = "rn", value.name = "betas", variable.name = "subject"), aes(betas, color = subject))+
  geom_density()

Match DNA, PRS, and metadata @TODO fix this after update of PRS etc.

# prsice_best=0.00030005
prsice_all <- fread("prsice_data/TERRE_PRSice.all_score")[match(colnames(betas_combat), IID,nomatch=0), .(FID, IID, `Pt_5e-08`, `Pt_5.005e-05`, `Pt_0.00010005`, `Pt_0.00100005`, `Pt_0.00030005`,`Pt_0.0101501`, `Pt_0.1`, `Pt_0.2`, `Pt_0.3`, `Pt_0.4`, `Pt_0.5`, `Pt_1`)]
covariate <- covariate[match(colnames(betas_combat), IID)]
all(covariate$IID == colnames(betas_combat))
[1] TRUE
all(covariate$IID == prsice_all$IID)
[1] TRUE
covariate_male <- covariate[sex == 1] %>% select(-sex)
betas_male <- betas_combat[, covariate_male$IID]
# best = 0.0335001
prsice_male_all <-fread("prsice_nalls_male_data/TERRE_PRSice_nalls_male.all_score")[match(colnames(betas_male), IID,nomatch=0), .(FID, IID, `Pt_5e-08`, `Pt_5.005e-05`, `Pt_0.00010005`, `Pt_0.00100005`, `Pt_0.0101501`, `Pt_0.0335001`, `Pt_0.1`, `Pt_0.2`, `Pt_0.3`, `Pt_0.4`, `Pt_0.5`, `Pt_1`)]

covariate_male <- covariate_male[match(colnames(betas_male), IID,nomatch=0)]
all(covariate_male$IID == colnames(betas_male))
[1] TRUE
all(covariate_male$IID == prsice_male_all$IID)
[1] TRUE
covariate_female <- covariate[sex == 0] %>% select(-sex) #%>% filter(IID %in% prsice_female_best$IID)
betas_female <- betas_combat[, covariate_female$IID]
#best = 0.00035005

prsice_female_all <- fread("prsice_nalls_female_data/TERRE_PRSice_nalls_female.all_score")[match(colnames(betas_female), IID,nomatch=0), .(FID, IID, `Pt_5e-08`, `Pt_5.005e-05`, `Pt_0.00010005`, `Pt_0.00035005`, `Pt_0.00100005`, `Pt_0.0101501`, `Pt_0.1`, `Pt_0.2`, `Pt_0.3`, `Pt_0.4`, `Pt_0.5`, `Pt_1`)]
covariate_female <- covariate_female[match(colnames(betas_female), IID,nomatch=0)]
all(covariate_female$IID == colnames(betas_female))
[1] TRUE
all(covariate_female$IID == prsice_female_all$IID)
[1] TRUE

Run limma

mvalues <- lumi::beta2m(betas_combat)
prs_mat <- prsice_all[, -c(1, 2)]
cov_mat <- covariate[, -c(1, 2)]

mvalues_male <- lumi::beta2m(betas_male)
prs_mat_male <- prsice_male_all[, -c(1, 2)]
cov_mat_male <- covariate_male[, -c(1, 2)]

mvalues_female <- lumi::beta2m(betas_female)
prs_mat_female <- prsice_female_all[, -c(1, 2)]
cov_mat_female <- covariate_female[, -c(1, 2)]
registerDoParallel(ncol(prs_mat) / 4)
hits <- foreach(prs_thresh = colnames(prs_mat)) %dopar% {
  design_prs <- model.matrix(~., data = cbind(prs_mat[, ..prs_thresh], cov_mat))
  prs_fit <- lmFit(mvalues, design_prs)
  prs_fit <- eBayes(prs_fit)
  topTable(prs_fit, coef = 2, adjust.method = "bonf", p.value = 0.05, number = Inf, genelist = rownames(mvalues))
}
names(hits) <- colnames(prs_mat)
hits_by_thresh_bonf <- rbindlist(hits, idcol = "threshold", fill = TRUE)

registerDoParallel(ncol(prs_mat_male) / 4)
hits_male <- foreach(prs_thresh = colnames(prs_mat_male)) %dopar% {
  design_prs_male <- model.matrix(~., data = cbind(prs_mat_male[, ..prs_thresh], cov_mat_male))
  prs_fit_male <- lmFit(mvalues_male, design_prs_male)
  prs_fit_male <- eBayes(prs_fit_male)
  topTable(prs_fit_male, coef = 2, adjust.method = "bonf", p.value = 0.05, number = Inf, genelist = rownames(mvalues_male))
}
names(hits_male) <- colnames(prs_mat_male)
hits_by_thresh_bonf_male <- rbindlist(hits_male, idcol = "threshold", fill = TRUE)

registerDoParallel(ncol(prs_mat_female) / 4)
hits_female <- foreach(prs_thresh = colnames(prs_mat_female)) %dopar% {
  design_prs_female <- model.matrix(~., data = cbind(prs_mat_female[, ..prs_thresh], cov_mat_female))
  prs_fit_female <- lmFit(mvalues_female, design_prs_female)
  prs_fit_female <- eBayes(prs_fit_female)
  topTable(prs_fit_female, coef = 2, adjust.method = "bonf", p.value = 0.05, number = Inf, genelist = rownames(mvalues_female))
}

Plotting EWAS vs Threshold Experiment by Sex

ggplot(to_plot, aes(threshold, hits, fill = Sex, label = hits)) +
  geom_text(position = plot_pos, vjust = -0.25) +
  geom_col(position = plot_pos) +
  labs(x = "GWAS P Value Threshold", y = "EWAS Hits") +
  scale_fill_manual(values = c("grey80", "lightblue", "lightpink")) +
  theme_minimal()
hits_by_thresh_bonf[, .(hits = .N, Sex = "Cross-sex"), by = threshold]

hits_by_thresh_bonf_male[, .(hits = .N), by = threshold]
hits_by_thresh_bonf_female[, .(hits = .N), by = threshold]
display_venn <- function(x, ...) {
  library(VennDiagram)
  grid.newpage()
  venn_object <- venn.diagram(x, filename = NULL, ...)
  grid.draw(venn_object)
}

display_venn(list(`Cross-sex` = hits_by_thresh_bonf[threshold == "Pt_5e-08"]$ID, Male = hits_by_thresh_bonf_male[threshold == "Pt_5e-08"]$ID, Female = hits_by_thresh_bonf_female[threshold == "Pt_5e-08"]$ID), fill = c("gray80", "lightblue", "lightpink"))
Loading required package: grid
Loading required package: futile.logger

male_ids <- hits_by_thresh_bonf_male[threshold == "Pt_5e-08"]$ID
cross_ids <- hits_by_thresh_bonf[threshold == "Pt_5e-08"]$ID
male_ids[!male_ids %in% cross_ids]
character(0)
get_full_fit <- function(prs_mat,cov_mat,mvalues){
  top_design_prs <- model.matrix(~., data = cbind(prs_mat[, `Pt_5e-08`], cov_mat))
  top_prs_fit <- lmFit(mvalues, top_design_prs)
  top_prs_fit <- eBayes(top_prs_fit)
  top_prs_hits <- topTable(top_prs_fit, coef = 2, adjust.method = "bonf", number = Inf, genelist = rownames(mvalues))
}
top_prs_hits <- get_full_fit(prs_mat,cov_mat,mvalues)
top_male_prs_hits <- get_full_fit(prs_mat_male, cov_mat_male, mvalues_male)
top_female_prs_hits <- get_full_fit(prs_mat_female, cov_mat_female, mvalues_female)
save(list=c("top_prs_hits","top_male_prs_hits","top_female_prs_hits"),file="prs_nalls_cross_w_sex_stratified.RData")
load("prs_nalls_cross_w_sex_stratified.RData")
manifest <- IlluminaHumanMethylationEPICanno.ilm10b4.hg19::Other %>%
  as.data.frame() %>%
  rownames_to_column(var = "name")
prs_annot <- data.table(top_prs_hits)[manifest, gene := gsub(";.*", "", UCSC_RefGene_Name), on = c(ID = "name")]
prs_annot_male <- data.table(top_male_prs_hits)[manifest, gene := gsub(";.*", "", UCSC_RefGene_Name), on = c(ID = "name")]
prs_annot_female<- data.table(top_female_prs_hits)[manifest, gene := gsub(";.*", "", UCSC_RefGene_Name), on = c(ID = "name")]
plot_prs_hits <- function(prs_annot,label_color){
  ggplot(prs_annot, aes(logFC, -log10(P.Value))) +
    geom_point() +
    geom_point(
      data = subset(prs_annot, adj.P.Val < 0.05 & abs(logFC) > 0.03),
      color = label_color,
      mapping = aes(logFC, -log10(P.Value))
    ) +
    geom_hline(
      linetype = "dashed",
      yintercept = min(-log10(prs_annot$P.Value[prs_annot$adj.P.Val < 0.05]))
    ) +
    geom_vline(linetype = "dashed", xintercept = 0.03) +
    geom_vline(linetype = "dashed", xintercept = -0.03) +
    geom_text_repel(
      data = prs_annot %>% filter(abs(logFC) > 0.03 & adj.P.Val < 0.05),
      color = "dodgerblue",
      mapping = aes(logFC, -log10(P.Value), label = ifelse(gene != "", gene, ID)),
      size = 3,
      max.overlaps = 20
    ) +
    labs(y = bquote("log"[10] ~ "(P)"), x = quote(Delta ~ "M" ~ Methylation)) +
    theme_minimal()
}

plot_prs_hits(prs_annot,"gray40")

plot_prs_hits(prs_annot_male,"lightblue")

plot_prs_hits(prs_annot_female,"pink")

go enrichment?

library(gprofiler2)
cross_sex <- unique(gsub(";.*","",manifest[manifest$name %in% hits_by_thresh_bonf[threshold == "Pt_5e-08"]$ID,]$UCSC_RefGene_Name))
background <- unique(gsub(";.*","",manifest$UCSC_RefGene_Name))
gost_res <- gost(query=cross_sex,custom_bg = background)
gostplot(gost_res)
gmirror(
  prs_annot_male[,.(SNP=ID,CHR=gsub("chr","",cpg_pos[match(ID,cpg_pos$name),]$chr),POS=cpg_pos[match(ID,cpg_pos$name),]$pos,pvalue=P.Value)],
  prs_annot_female[,.(SNP=ID,CHR=gsub("chr","",cpg_pos[match(ID,cpg_pos$name),]$chr),POS=cpg_pos[match(ID,cpg_pos$name),]$pos,pvalue=P.Value)],
  annotate_snp = c(male_annot_cpg,female_annot_cpg),
  tline =  max(prs_annot_male[adj.P.Val<0.25]$P.Value),
  bline =  max(prs_annot_female[adj.P.Val<0.25]$P.Value),
  highlight_p = c(max(prs_annot_male[adj.P.Val<0.25]$P.Value),max(prs_annot_female[adj.P.Val<0.25]$P.Value)),
  toptitle="Male",
  bottomtitle ="Female",
  highlighter="green",
  background="white"
)
[1] "Saving plot to gmirror.png"
TableGrob (2 x 1) "arrange": 2 grobs

Manhattan plot vs GWAS manhattan plot

library(qqman)

copy_annot <- prs_annot[cpg_pos, on = c(ID = "name")] %>%
  mutate(chr = as.numeric(recode(gsub("chr", "", chr),X="23",Y="24")))
to_plot <- copy_annot[, .(SNP = gene, CHR = chr, BP = pos, P = P.Value, FDR = adj.P.Val)][!is.na(P)]
manhattan(to_plot,
  annotatePval = max(to_plot[FDR < 0.05]$P),
  annotateTop = TRUE,
  genomewideline = min(-log10(to_plot[FDR < 0.05]$P)),
  suggestiveline = FALSE
)
manhattan(to_plot[CHR == 17],
  annotatePval = max(to_plot[FDR < 0.05]$P),
  annotateTop = FALSE,
  genomewideline = min(-log10(to_plot[FDR < 0.05]$P)),
  suggestiveline = FALSE
)
qq(to_plot$P)

DMRs

library(DMRcate)
Loading required package: minfi
Loading required package: BiocGenerics

Attaching package: ‘BiocGenerics’

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    clusterApply, clusterApplyLB, clusterCall, clusterEvalQ, clusterExport, clusterMap, parApply, parCapply,
    parLapply, parLapplyLB, parRapply, parSapply, parSapplyLB

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    anyDuplicated, append, as.data.frame, basename, cbind, colnames, dirname, do.call, duplicated, eval, evalq,
    Filter, Find, get, grep, grepl, intersect, is.unsorted, lapply, Map, mapply, match, mget, order, paste, pmax,
    pmax.int, pmin, pmin.int, Position, rank, rbind, Reduce, rownames, sapply, setdiff, sort, table, tapply, union,
    unique, unsplit, which, which.max, which.min

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Welcome to Bioconductor

    Vignettes contain introductory material; view with 'browseVignettes()'. To cite Bioconductor, see
    'citation("Biobase")', and for packages 'citation("pkgname")'.

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replacing previous import 'minfi::getMeth' by 'bsseq::getMeth' when loading 'DMRcate'
S4_to_dataframe <- function(s4obj) {
  nms <- slotNames(s4obj)
  lst <- lapply(nms, function(nm) slot(s4obj, nm))
  as.data.frame(setNames(lst, nms))
}
run_dmrcate <- function(prs_mat,cov_mat,mvalues){
  design_prs <- model.matrix(~., data = cbind(prs_mat[, `Pt_5e-08`], cov_mat))
  prs_annotated <- cpg.annotate(datatype = "array", object = mvalues, analysis.type = "differential", design = design_prs, coef = 2, what = "M", arraytype = "EPIC", fdr = 0.05)
  prs_dmr_res <- dmrcate(prs_annotated, lambda = 1000, C = 2)
  return(S4_to_dataframe(prs_dmr_res))
}
dmr_cross <- run_dmrcate(prs_mat, cov_mat, mvalues)
Loading required package: IlluminaHumanMethylationEPICanno.ilm10b4.hg19
Your contrast returned 85 individually significant probes; a small but real effect. Consider manually setting the value of pcutoff to return more DMRs, but be warned that doing this increases the risk of Type I errors.
Fitting chr1...
Fitting chr2...
Fitting chr3...
Fitting chr4...
Fitting chr5...
Fitting chr6...
Fitting chr7...
Fitting chr8...
Fitting chr9...
Fitting chr10...
Fitting chr11...
Fitting chr12...
Fitting chr13...
Fitting chr14...
Fitting chr15...
Fitting chr16...
Fitting chr17...
Fitting chr18...
Fitting chr19...
Fitting chr20...
Fitting chr21...
Fitting chr22...
Fitting chrX...
Fitting chrY...
Demarcating regions...
Done!
dmr_males <- run_dmrcate(prs_mat_male,cov_mat_male,mvalues_male)
Your contrast returned 59 individually significant probes; a small but real effect. Consider manually setting the value of pcutoff to return more DMRs, but be warned that doing this increases the risk of Type I errors.
Fitting chr1...
Fitting chr2...
Fitting chr3...
Fitting chr4...
Fitting chr5...
Fitting chr6...
Fitting chr7...
Fitting chr8...
Fitting chr9...
Fitting chr10...
Fitting chr11...
Fitting chr12...
Fitting chr13...
Fitting chr14...
Fitting chr15...
Fitting chr16...
Fitting chr17...
Fitting chr18...
Fitting chr19...
Fitting chr20...
Fitting chr21...
Fitting chr22...
Fitting chrX...
Fitting chrY...
Demarcating regions...
Done!
dmr_female <- run_dmrcate(prs_mat_female,cov_mat_female,mvalues_female)
Your contrast returned 41 individually significant probes; a small but real effect. Consider manually setting the value of pcutoff to return more DMRs, but be warned that doing this increases the risk of Type I errors.
Fitting chr1...
Fitting chr2...
Fitting chr3...
Fitting chr4...
Fitting chr5...
Fitting chr6...
Fitting chr7...
Fitting chr8...
Fitting chr9...
Fitting chr10...
Fitting chr11...
Fitting chr12...
Fitting chr13...
Fitting chr14...
Fitting chr15...
Fitting chr16...
Fitting chr17...
Fitting chr18...
Fitting chr19...
Fitting chr20...
Fitting chr21...
Fitting chr22...
Fitting chrX...
Fitting chrY...
Demarcating regions...
Done!
annotation <- minfi::getAnnotation(IlluminaHumanMethylationEPICanno.ilm10b4.hg19)

Plotting all DMRs

get_dmr_effects <- function(dmr, limma_res,mvalues) {
  dmr_coord <- str_match_all(as.character(dmr), "(chr.*):([0-9]*)-([0-9]*)")[[1]]
  cpgs <- as.data.table(annotation[annotation$chr == dmr_coord[2] & annotation$pos >= as.numeric(dmr_coord[3]) & annotation$pos <= as.numeric(dmr_coord[4]), ])
  res <- limma_res[cpgs,on=c("ID"="Name"),nomatch=0 ]
  dmr_1 <- as.data.frame(res[!is.na(res$logFC), ])
  dmr_methy <- reshape2::melt(lumi::m2beta(mvalues[dmr_1$ID, ]), stringsAsFactors = FALSE)
  to_plot <- merge(dmr_1, dmr_methy, by.x = "ID", by.y = "Var1")
  to_plot$DMR <- dmr
  to_plot
}
get_dmr_res <- function(dmr, limma_res) {
  dmr_coord <- str_match_all(as.character(dmr), "(chr.*):([0-9]*)-([0-9]*)")[[1]]
  cpgs <- annotation[annotation$chr == dmr_coord[2] & annotation$pos >= as.numeric(dmr_coord[3]) & annotation$pos <= as.numeric(dmr_coord[4]), ]
  res <- cbind(cpgs, limma_res[cpgs$Name, ])
  res$DMR <- dmr
  return(res)
}
plot_dmrs <- function(dmr_res,limma_res,prs_mat, mvalues, case_control) {
  to_plot <- rbindlist(lapply(dmr_res$coord, function(dmr) get_dmr_effects(dmr, limma_res,mvalues))) %>%
    mutate(SCORE1_AVG = scale(prs_mat[match(Var2,IDs$IID),`Pt_5e-08`]),PD = PD[match(Var2,IID)]$PD) %>%
    filter(!is.na(SCORE1_AVG))
  for(cur_dmr in unique(to_plot$DMR)){
    cur_plot <- to_plot[DMR == cur_dmr]
    p1 <- ggplot(cur_plot , aes(pos, value, color = SCORE1_AVG)) +
      geom_point() +
      scale_color_gradient(low = rev(case_control)[1], high = rev(case_control)[2]) +
      theme_minimal() +
      labs(title = unique(cur_plot$DMR),x="POS",y=bquote("Methylation"~beta),color = "Normalized PD PRS")+
      theme(axis.text.x = element_text(angle = 90))
    p2 <- ggplot(cur_plot %>% mutate(PD = ifelse(PD == 1, "CASE", "CONTROL")), aes(factor(pos), value, color = PD)) +
      geom_boxplot(position = position_dodge(0.75)) +
      scale_color_manual(values = case_control) +
      theme_minimal() +
      stat_summary(aes(group = PD), fun = mean, geom = "line") +
      labs(title = unique(cur_plot$DMR),x="POS",y=bquote("Methylation"~beta),color = "PD status") +
      theme(axis.text.x = element_text(angle = 90))
    print(p1)
    print(p2)
  }
}

plot_dmrs(dmr_cross, prs_annot, prs_mat,mvalues, rev(c("gray80", "gray40")))

plot_dmrs(dmr_males,prs_annot_male,prs_mat_male, mvalues_male,rev(c("light blue", "lightblue4")))

plot_dmrs(dmr_female, prs_annot_female, prs_mat_female, mvalues_female,rev(c("lightpink", "lightpink4")))

dmr_cross
dmr_males
dmr_female
save(list=c("dmr_cross","dmr_males","dmr_female"),file="prs_dmr_nalls.RData")
---
title: "PRSice2 Development of risk score"
output:
  html_notebook:
    toc: yes
---

```{r setup, include=FALSE}
library(tidyverse)
library(ggrepel)
library(data.table)
library(knitr)
library(limma)
library(foreach)
library(doParallel)
Sys.setlocale("LC_MESSAGES", "en_US.utf8")
knitr::opts_chunk$set(echo = TRUE)
```

# Step 0: Prepare covariates and input files
```{r}
IDs <- fread("~/genotype_qc/TERRE_QC/all_imputed_r2_30_rsid_hard_call.fam")[, .(FID = V1, IID = V2)]
prsice_cov <- fread("prsice_cov_and_status_mvalues.txt")
prsice_cov <- prsice_cov[match(IDs$IID,prsice_cov$IID)]
all(IDs$IID ==prsice_cov$IID)
covariate <- cbind(IDs, prsice_cov[,-c(16,17,18)])

PD <- cbind(IDs,prsice_cov[,16])

head(covariate)
head(PD)
fwrite(na.omit(PD), "TERRE.pheno", sep = "\t")
fwrite(na.omit(covariate), "TERRE.covariate", sep = "\t")
```
```{r}
covariate
```


# Step 1: Run PRSice-2 on Nalls et al 2019 Sumstats
```{bash,eval=FALSE}
Rscript /home1/NEURO/casazza/PRSice.R \
    --prsice /home1/NEURO/casazza/PRSice_linux\
    --base /home1/NEURO/casazza/nalls_PD.QC.gz\
    --base-info INFO:0.8 \
    --base-maf MAF:0.01 \
    --cov TERRE.covariate \
    --binary-target T\
    --beta  \
    --ld /home1/NEURO/casazza/1000G_plink/EUR_phase3  \
    --out TERRE_PRSice \
    -q 5\
    --all-score\
    --pheno TERRE.pheno \
    --snp SNP \
    --stat b \
    --pvalue p\
    --target /home1/NEURO/casazza/genotype_qc/TERRE_QC/all_imputed_r2_30_rsid_hard_call \
    --thread 32
```
# Step 2: Evaluate output
```{r, out.width="400px"}
include_graphics("prsice_images/TERRE_PRSice_BARPLOT_2022-06-30.png")
include_graphics("prsice_images/TERRE_PRSice_HIGH-RES_PLOT_2022-06-30.png")
include_graphics("prsice_images/TERRE_PRSice_QUANTILES_PLOT_2022-06-30.png")

include_graphics("prsice_images/TERRE_PRSice_nalls_male_BARPLOT_2022-10-04.png")
include_graphics("prsice_images/TERRE_PRSice_nalls_male_HIGH-RES_PLOT_2022-10-04.png")
include_graphics("prsice_images/TERRE_PRSice_nalls_male_QUANTILES_PLOT_2022-10-04.png")

include_graphics("prsice_images/TERRE_PRSice_nalls_female_BARPLOT_2022-10-04.png")
include_graphics("prsice_images/TERRE_PRSice_nalls_female_HIGH-RES_PLOT_2022-10-04.png")
include_graphics("prsice_images/TERRE_PRSice_nalls_female_QUANTILES_PLOT_2022-10-04.png")
```
## Plotting PRSice Data on my own
```{r}
library(ggnewscale)
prsice_male_meta <- fread("prsice_nalls_male_data/TERRE_PRSice_nalls_male.prsice")
ggplot(prsice_male_meta[Threshold <= 0.5], aes(Threshold, Num_SNP, color = -log10(P))) +
  geom_point() +
  scale_y_continuous(breaks = c(seq(0, 1e5, 2.5e4), seq(2e5, 6e5, 1e5))) +
  theme_minimal()

prsice_female_meta <- fread("prsice_nalls_female_data/TERRE_PRSice_nalls_female.prsice")
ggplot(prsice_female_meta[Threshold <= 0.5], aes(Threshold, Num_SNP, color = -log10(P))) +
  geom_point() +
  scale_y_continuous(breaks = c(seq(0, 1e5, 2.5e4), seq(2e5, 6e5, 1e5))) +
  theme_minimal()

prsice_meta <- fread("prsice_data/TERRE_PRSice.prsice")
ggplot(mapping = aes(Threshold, R2, color = -log10(P))) +
  geom_point(data = prsice_female_meta, size = 1) +
  scale_color_gradient(low = "lightpink4", high = "lightpink") +
  labs(color = bquote("Female log"["10"] ~ "(P)")) +
  new_scale_color() +
  geom_point(data = prsice_male_meta, size = 1, aes(color = -log10(P))) +
  scale_color_gradient(low = "lightblue4", high = "lightblue") +
  labs(y = bquote("R"^2), x = "GWAS P-Value Threshold", color = bquote("Male -log"["10"] ~ "(P)")) +
  theme_minimal() +
  theme(legend.position = "top")
ggplot(mapping = aes(Threshold, R2, color = -log10(P))) +
  geom_point(data = prsice_female_meta, size = 1) +
  scale_color_gradient(low = "lightpink4", high = "lightpink",guide = guide_colorbar(order=3)) +
  labs(color = bquote("Female -log"["10"] ~ "(P)")) +
  new_scale_color() +
  geom_point(data = prsice_male_meta, size = 1, aes(color = -log10(P))) +
  scale_color_gradient(low = "lightblue4", high = "lightblue",guide = guide_colorbar(order=2)) +
  labs(color = bquote("Male -log"["10"] ~ "(P)")) +
  new_scale_color() +
  geom_point(data = prsice_meta, size = 1, aes(color = -log10(P))) +
  scale_color_gradient(low = "gray40", high = "gray80",guide = guide_colorbar(order=1)) +
  labs(y = bquote("R"^2), x = "GWAS P-Value Threshold", color = bquote("Cross-sex -log"["10"] ~ "(P)")) +
  theme_minimal() +
  theme(legend.position = "top",legend.title = element_text(size=7))
```

# Step 3 run linear model at different thresholds for SNP inclusion
This is updated to recently processed DNAm Data 20 outliers in DNAm removed:
```{r}
load("/home1/NEURO/SHARE_DECIPHER/processed_DNAm_data/2022/TERRE_processed_2022/1-TERRE_RG_filtered.RData") #PD_RG_filtered
# Assign genotyping ID to data
original_covars <- fread("/home1/NEURO/SHARE_DECIPHER/terre_meta_master.csv")[, .(patient, IID = gsub("_PAE.*", "", IID))]
betas_combat <- minfi::getBeta(PD_RG_filtered)
colnames(betas_combat) <- original_covars$IID[match(colnames(betas_combat), original_covars$patient)]
betas_combat <- betas_combat[, colnames(betas_combat) %in% covariate$IID]
```
Let's check how the data looks for the first 5 subjects:
```{r}
ggplot(betas_combat[, 1:5] %>% as.data.table(keep.rownames = T) %>% melt(id.vars = "rn", value.name = "betas", variable.name = "subject"), aes(betas, color = subject))+
  geom_density()
```

### Match DNA, PRS, and metadata @TODO fix this after update of PRS etc.
```{r}
# prsice_best=0.00030005
prsice_all <- fread("prsice_data/TERRE_PRSice.all_score")[match(colnames(betas_combat), IID,nomatch=0), .(FID, IID, `Pt_5e-08`, `Pt_5.005e-05`, `Pt_0.00010005`, `Pt_0.00100005`, `Pt_0.00030005`,`Pt_0.0101501`, `Pt_0.1`, `Pt_0.2`, `Pt_0.3`, `Pt_0.4`, `Pt_0.5`, `Pt_1`)]
covariate <- covariate[match(colnames(betas_combat), IID)]
all(covariate$IID == colnames(betas_combat))
all(covariate$IID == prsice_all$IID)

covariate_male <- covariate[sex == 1] %>% select(-sex)
betas_male <- betas_combat[, covariate_male$IID]
# best = 0.0335001
prsice_male_all <-fread("prsice_nalls_male_data/TERRE_PRSice_nalls_male.all_score")[match(colnames(betas_male), IID,nomatch=0), .(FID, IID, `Pt_5e-08`, `Pt_5.005e-05`, `Pt_0.00010005`, `Pt_0.00100005`, `Pt_0.0101501`, `Pt_0.0335001`, `Pt_0.1`, `Pt_0.2`, `Pt_0.3`, `Pt_0.4`, `Pt_0.5`, `Pt_1`)]

covariate_male <- covariate_male[match(colnames(betas_male), IID,nomatch=0)]
all(covariate_male$IID == colnames(betas_male))
all(covariate_male$IID == prsice_male_all$IID)

covariate_female <- covariate[sex == 0] %>% select(-sex) #%>% filter(IID %in% prsice_female_best$IID)
betas_female <- betas_combat[, covariate_female$IID]
#best = 0.00035005

prsice_female_all <- fread("prsice_nalls_female_data/TERRE_PRSice_nalls_female.all_score")[match(colnames(betas_female), IID,nomatch=0), .(FID, IID, `Pt_5e-08`, `Pt_5.005e-05`, `Pt_0.00010005`, `Pt_0.00035005`, `Pt_0.00100005`, `Pt_0.0101501`, `Pt_0.1`, `Pt_0.2`, `Pt_0.3`, `Pt_0.4`, `Pt_0.5`, `Pt_1`)]
covariate_female <- covariate_female[match(colnames(betas_female), IID,nomatch=0)]
all(covariate_female$IID == colnames(betas_female))
all(covariate_female$IID == prsice_female_all$IID)


```
### Run limma

```{r}
mvalues <- lumi::beta2m(betas_combat)
prs_mat <- prsice_all[, -c(1, 2)]
cov_mat <- covariate[, -c(1, 2)]

mvalues_male <- lumi::beta2m(betas_male)
prs_mat_male <- prsice_male_all[, -c(1, 2)]
cov_mat_male <- covariate_male[, -c(1, 2)]

mvalues_female <- lumi::beta2m(betas_female)
prs_mat_female <- prsice_female_all[, -c(1, 2)]
cov_mat_female <- covariate_female[, -c(1, 2)]
```

```{r}
registerDoParallel(ncol(prs_mat) / 4)
hits <- foreach(prs_thresh = colnames(prs_mat)) %dopar% {
  design_prs <- model.matrix(~., data = cbind(prs_mat[, ..prs_thresh], cov_mat))
  prs_fit <- lmFit(mvalues, design_prs)
  prs_fit <- eBayes(prs_fit)
  topTable(prs_fit, coef = 2, adjust.method = "bonf", p.value = 0.05, number = Inf, genelist = rownames(mvalues))
}
names(hits) <- colnames(prs_mat)
hits_by_thresh_bonf <- rbindlist(hits, idcol = "threshold", fill = TRUE)

registerDoParallel(ncol(prs_mat_male) / 4)
hits_male <- foreach(prs_thresh = colnames(prs_mat_male)) %dopar% {
  design_prs_male <- model.matrix(~., data = cbind(prs_mat_male[, ..prs_thresh], cov_mat_male))
  prs_fit_male <- lmFit(mvalues_male, design_prs_male)
  prs_fit_male <- eBayes(prs_fit_male)
  topTable(prs_fit_male, coef = 2, adjust.method = "bonf", p.value = 0.05, number = Inf, genelist = rownames(mvalues_male))
}
names(hits_male) <- colnames(prs_mat_male)
hits_by_thresh_bonf_male <- rbindlist(hits_male, idcol = "threshold", fill = TRUE)

registerDoParallel(ncol(prs_mat_female) / 4)
hits_female <- foreach(prs_thresh = colnames(prs_mat_female)) %dopar% {
  design_prs_female <- model.matrix(~., data = cbind(prs_mat_female[, ..prs_thresh], cov_mat_female))
  prs_fit_female <- lmFit(mvalues_female, design_prs_female)
  prs_fit_female <- eBayes(prs_fit_female)
  topTable(prs_fit_female, coef = 2, adjust.method = "bonf", p.value = 0.05, number = Inf, genelist = rownames(mvalues_female))
}
names(hits_female) <- colnames(prs_mat_female)
hits_by_thresh_bonf_female <- rbindlist(hits_female, idcol = "threshold", fill = TRUE)

```

### Plotting EWAS vs Threshold Experiment by Sex
```{r}
to_plot <- rbind(
  hits_by_thresh_bonf[, .(hits = .N, Sex = "Cross-sex"), by = threshold] %>%
    mutate(threshold = recode_factor(threshold, `Pt_0.0219001` = "0.0219", `Pt_5e-08` = "5e-8", `Pt_5.005e-05` = "5e-5", `Pt_0.00010005` = "1e-4",`Pt_0.00030005`="3e-4",`Pt_0.00100005` = "1e-3", `Pt_0.0101501` = "1e-2", `Pt_0.1` = "0.1", `Pt_0.2` = "0.2", `Pt_0.3` = "0.3", `Pt_0.4` = "0.4", `Pt_0.5` = "0.5", `Pt_1` = "1.0")),
  hits_by_thresh_bonf_male[, .(hits = .N, Sex = "Male"), by = threshold] %>%
    mutate(threshold = recode_factor(threshold, `Pt_0.0219001` = "0.0219", `Pt_5e-08` = "5e-8", `Pt_5.005e-05` = "5e-5", `Pt_0.00010005` = "1e-4", `Pt_0.00100005` = "1e-3", `Pt_0.0101501` = "1e-2", `Pt_0.0335001`="3.4e-2", `Pt_0.1` = "0.1", `Pt_0.2` = "0.2", `Pt_0.3` = "0.3", `Pt_0.4` = "0.4", `Pt_0.5` = "0.5", `Pt_1` = "1.0")),
  hits_by_thresh_bonf_female[, .(hits = .N, Sex = "Female"), by = threshold] %>%
    mutate(threshold = recode_factor(threshold, `Pt_0.0219001` = "0.0219", `Pt_5e-08` = "5e-8", `Pt_5.005e-05` = "5e-5", `Pt_0.00010005` = "1e-4",`Pt_0.00035005`="3.5e-4", `Pt_0.00100005` = "1e-3", `Pt_0.0101501` = "1e-2", `Pt_0.1` = "0.1", `Pt_0.2` = "0.2", `Pt_0.3` = "0.3", `Pt_0.4` = "0.4", `Pt_0.5` = "0.5", `Pt_1` = "1.0"))
) %>% mutate(Sex = factor(Sex, levels = c("Cross-sex", "Male", "Female")))
plot_pos <-position_dodge2(width = 0.9, preserve = "single")
ggplot(to_plot, aes(threshold, hits, fill = Sex, label = hits)) +
  geom_text(position = plot_pos, vjust = -0.25) +
  geom_col(position = plot_pos) +
  labs(x = "GWAS P Value Threshold", y = "EWAS Hits") +
  scale_fill_manual(values = c("grey80", "lightblue", "lightpink")) +
  theme_minimal()
hits_by_thresh_bonf[, .(hits = .N, Sex = "Cross-sex"), by = threshold]
hits_by_thresh_bonf_male[, .(hits = .N), by = threshold]
hits_by_thresh_bonf_female[, .(hits = .N), by = threshold]
```
```{r}
display_venn <- function(x, ...) {
  library(VennDiagram)
  grid.newpage()
  venn_object <- venn.diagram(x, filename = NULL, ...)
  grid.draw(venn_object)
}

display_venn(list(`Cross-sex` = hits_by_thresh_bonf[threshold == "Pt_5e-08"]$ID, Male = hits_by_thresh_bonf_male[threshold == "Pt_5e-08"]$ID, Female = hits_by_thresh_bonf_female[threshold == "Pt_5e-08"]$ID), fill = c("gray80", "lightblue", "lightpink"))
male_ids <- hits_by_thresh_bonf_male[threshold == "Pt_5e-08"]$ID
cross_ids <- hits_by_thresh_bonf[threshold == "Pt_5e-08"]$ID
male_ids[!male_ids %in% cross_ids]
```

```{r}
get_full_fit <- function(prs_mat,cov_mat,mvalues){
  top_design_prs <- model.matrix(~., data = cbind(prs_mat[, `Pt_5e-08`], cov_mat))
  top_prs_fit <- lmFit(mvalues, top_design_prs)
  top_prs_fit <- eBayes(top_prs_fit)
  top_prs_hits <- topTable(top_prs_fit, coef = 2, adjust.method = "bonf", number = Inf, genelist = rownames(mvalues))
}
top_prs_hits <- get_full_fit(prs_mat,cov_mat,mvalues)
top_male_prs_hits <- get_full_fit(prs_mat_male, cov_mat_male, mvalues_male)
top_female_prs_hits <- get_full_fit(prs_mat_female, cov_mat_female, mvalues_female)
save(list=c("top_prs_hits","top_male_prs_hits","top_female_prs_hits"),file="prs_nalls_cross_w_sex_stratified.RData")
```

```{r}
load("prs_nalls_cross_w_sex_stratified.RData")
```
```{r}
manifest <- IlluminaHumanMethylationEPICanno.ilm10b4.hg19::Other %>%
  as.data.frame() %>%
  rownames_to_column(var = "name")
prs_annot <- data.table(top_prs_hits)[manifest, gene := gsub(";.*", "", UCSC_RefGene_Name), on = c(ID = "name")]
prs_annot_male <- data.table(top_male_prs_hits)[manifest, gene := gsub(";.*", "", UCSC_RefGene_Name), on = c(ID = "name")]
prs_annot_female<- data.table(top_female_prs_hits)[manifest, gene := gsub(";.*", "", UCSC_RefGene_Name), on = c(ID = "name")]
plot_prs_hits <- function(prs_annot,label_color){
  ggplot(prs_annot, aes(logFC, -log10(P.Value))) +
    geom_point() +
    geom_point(
      data = subset(prs_annot, adj.P.Val < 0.05 & abs(logFC) > 0.03),
      color = label_color,
      mapping = aes(logFC, -log10(P.Value))
    ) +
    geom_hline(
      linetype = "dashed",
      yintercept = min(-log10(prs_annot$P.Value[prs_annot$adj.P.Val < 0.05]))
    ) +
    geom_vline(linetype = "dashed", xintercept = 0.03) +
    geom_vline(linetype = "dashed", xintercept = -0.03) +
    geom_text_repel(
      data = prs_annot %>% filter(abs(logFC) > 0.03 & adj.P.Val < 0.05),
      color = "dodgerblue",
      mapping = aes(logFC, -log10(P.Value), label = ifelse(gene != "", gene, ID)),
      size = 3,
      max.overlaps = 20
    ) +
    labs(y = bquote("log"[10] ~ "(P)"), x = quote(Delta ~ "M" ~ Methylation)) +
    theme_minimal()
}

plot_prs_hits(prs_annot,"gray40")
plot_prs_hits(prs_annot_male,"lightblue")
plot_prs_hits(prs_annot_female,"pink")
```


```{r}
prs_plot_data <- data.table(dnam = lumi::m2beta(mvalues["cg12609785",]), prs = prs_mat$`Pt_5e-08`,PD=ifelse(PD[match(colnames(mvalues),IID),]$PD == 1,"Case","Control"),Sex=factor(ifelse(cov_mat$sex ==1,"Male","Female"),levels=c("Male","Female")))
ggplot(prs_plot_data,aes(prs,dnam,color=Sex,shape = PD,group=Sex)) +
  geom_point(size=3)+
  geom_smooth(method="lm",se=F)+
  labs(y=bquote("Methylation"~beta),x="Parkinson's GRS")+
  scale_color_manual(values=c("Male"="lightblue","Female"="lightpink")) + 
  theme_minimal(base_size=20)
```

## go enrichment?
```{r,eval=FALSE}
library(gprofiler2)
cross_sex <- unique(gsub(";.*","",manifest[manifest$name %in% hits_by_thresh_bonf[threshold == "Pt_5e-08"]$ID,]$UCSC_RefGene_Name))
background <- unique(gsub(";.*","",manifest$UCSC_RefGene_Name))
gost_res <- gost(query=cross_sex,custom_bg = background)
gostplot(gost_res)
```
```{r}
cpg_pos <- IlluminaHumanMethylationEPICanno.ilm10b4.hg19::Locations %>%
  as.data.frame() %>%
  rownames_to_column(var = "name")
male_annot_cpg <- (prs_annot_male %>% filter(adj.P.Val < 0.25) %>% left_join(cpg_pos,by=c("ID"="name")) %>% group_by(chr) %>% top_n(-10,P.Value))$ID
female_annot_cpg <- (prs_annot_female %>% filter(adj.P.Val < 0.25) %>% left_join(cpg_pos,by=c("ID"="name")) %>% group_by(chr) %>% top_n(-10,P.Value))$ID
library(hudson)
options(ggrepel.max.overlaps = Inf)
gmirror(
  prs_annot_male[,.(SNP=ID,CHR=gsub("chr","",cpg_pos[match(ID,cpg_pos$name),]$chr),POS=cpg_pos[match(ID,cpg_pos$name),]$pos,pvalue=P.Value)],
  prs_annot_female[,.(SNP=ID,CHR=gsub("chr","",cpg_pos[match(ID,cpg_pos$name),]$chr),POS=cpg_pos[match(ID,cpg_pos$name),]$pos,pvalue=P.Value)],
  annotate_snp = c(male_annot_cpg,female_annot_cpg),
  tline =  max(prs_annot_male[adj.P.Val<0.25]$P.Value),
  bline =  max(prs_annot_female[adj.P.Val<0.25]$P.Value),
  highlight_p = c(max(prs_annot_male[adj.P.Val<0.25]$P.Value),max(prs_annot_female[adj.P.Val<0.25]$P.Value)),
  toptitle="Male",
  bottomtitle ="Female",
  highlighter="green",
  background="white"
)

```

# Manhattan plot vs GWAS manhattan plot
```{r,eval=FALSE}
library(qqman)

copy_annot <- prs_annot[cpg_pos, on = c(ID = "name")] %>%
  mutate(chr = as.numeric(recode(gsub("chr", "", chr),X="23",Y="24")))
to_plot <- copy_annot[, .(SNP = gene, CHR = chr, BP = pos, P = P.Value, FDR = adj.P.Val)][!is.na(P)]
manhattan(to_plot,
  annotatePval = max(to_plot[FDR < 0.05]$P),
  annotateTop = TRUE,
  genomewideline = min(-log10(to_plot[FDR < 0.05]$P)),
  suggestiveline = FALSE
)
manhattan(to_plot[CHR == 17],
  annotatePval = max(to_plot[FDR < 0.05]$P),
  annotateTop = FALSE,
  genomewideline = min(-log10(to_plot[FDR < 0.05]$P)),
  suggestiveline = FALSE
)
qq(to_plot$P)
```


## DMRs

```{r}
library(DMRcate)
S4_to_dataframe <- function(s4obj) {
  nms <- slotNames(s4obj)
  lst <- lapply(nms, function(nm) slot(s4obj, nm))
  as.data.frame(setNames(lst, nms))
}
run_dmrcate <- function(prs_mat,cov_mat,mvalues){
  design_prs <- model.matrix(~., data = cbind(prs_mat[, `Pt_5e-08`], cov_mat))
  prs_annotated <- cpg.annotate(datatype = "array", object = mvalues, analysis.type = "differential", design = design_prs, coef = 2, what = "M", arraytype = "EPIC", fdr = 0.05)
  prs_dmr_res <- dmrcate(prs_annotated, lambda = 1000, C = 2)
  return(S4_to_dataframe(prs_dmr_res))
}
dmr_cross <- run_dmrcate(prs_mat, cov_mat, mvalues)
dmr_males <- run_dmrcate(prs_mat_male,cov_mat_male,mvalues_male)
dmr_female <- run_dmrcate(prs_mat_female,cov_mat_female,mvalues_female)
```
```{r}
annotation <- minfi::getAnnotation(IlluminaHumanMethylationEPICanno.ilm10b4.hg19)
```
### Plotting all DMRs {.tabset .tabset-fade}
```{r}
get_dmr_effects <- function(dmr, limma_res,mvalues) {
  dmr_coord <- str_match_all(as.character(dmr), "(chr.*):([0-9]*)-([0-9]*)")[[1]]
  cpgs <- as.data.table(annotation[annotation$chr == dmr_coord[2] & annotation$pos >= as.numeric(dmr_coord[3]) & annotation$pos <= as.numeric(dmr_coord[4]), ])
  res <- limma_res[cpgs,on=c("ID"="Name"),nomatch=0 ]
  dmr_1 <- as.data.frame(res[!is.na(res$logFC), ])
  dmr_methy <- reshape2::melt(lumi::m2beta(mvalues[dmr_1$ID, ]), stringsAsFactors = FALSE)
  to_plot <- merge(dmr_1, dmr_methy, by.x = "ID", by.y = "Var1")
  to_plot$DMR <- dmr
  to_plot
}
get_dmr_res <- function(dmr, limma_res) {
  dmr_coord <- str_match_all(as.character(dmr), "(chr.*):([0-9]*)-([0-9]*)")[[1]]
  cpgs <- annotation[annotation$chr == dmr_coord[2] & annotation$pos >= as.numeric(dmr_coord[3]) & annotation$pos <= as.numeric(dmr_coord[4]), ]
  res <- cbind(cpgs, limma_res[cpgs$Name, ])
  res$DMR <- dmr
  return(res)
}
plot_dmrs <- function(dmr_res,limma_res,prs_mat, mvalues, case_control) {
  to_plot <- rbindlist(lapply(dmr_res$coord, function(dmr) get_dmr_effects(dmr, limma_res,mvalues))) %>%
    mutate(SCORE1_AVG = scale(prs_mat[match(Var2,IDs$IID),`Pt_5e-08`]),PD = PD[match(Var2,IID)]$PD) %>%
    filter(!is.na(SCORE1_AVG))
  for(cur_dmr in unique(to_plot$DMR)){
    cur_plot <- to_plot[DMR == cur_dmr]
    p1 <- ggplot(cur_plot , aes(pos, value, color = SCORE1_AVG)) +
      geom_point() +
      scale_color_gradient(low = rev(case_control)[1], high = rev(case_control)[2]) +
      theme_minimal() +
      labs(title = unique(cur_plot$DMR),x="POS",y=bquote("Methylation"~beta),color = "Normalized PD PRS")+
      theme(axis.text.x = element_text(angle = 90))
    p2 <- ggplot(cur_plot %>% mutate(PD = ifelse(PD == 1, "CASE", "CONTROL")), aes(factor(pos), value, color = PD)) +
      geom_boxplot(position = position_dodge(0.75)) +
      scale_color_manual(values = case_control) +
      theme_minimal() +
      stat_summary(aes(group = PD), fun = mean, geom = "line") +
      labs(title = unique(cur_plot$DMR),x="POS",y=bquote("Methylation"~beta),color = "PD status") +
      theme(axis.text.x = element_text(angle = 90))
    print(p1)
    print(p2)
  }
}

plot_dmrs(dmr_cross, prs_annot, prs_mat,mvalues, rev(c("gray80", "gray40")))
plot_dmrs(dmr_males,prs_annot_male,prs_mat_male, mvalues_male,rev(c("light blue", "lightblue4")))
plot_dmrs(dmr_female, prs_annot_female, prs_mat_female, mvalues_female,rev(c("lightpink", "lightpink4")))
```


```{r}
dmr_cross
dmr_males
dmr_female
save(list=c("dmr_cross","dmr_males","dmr_female"),file="prs_dmr_nalls.RData")
```
